Linked from

The 63 pages that link to Occupational exposure limit, each with the reason it gives.

• Dose–response relationshipRelated: Its setting depends on evidence connecting exposure levels with health effects.

• BenzeneRelated: Benzene limits govern permissible workplace exposure to its vapors.

• ToxicologyNarrower topic: It translates evidence about harmful effects into workplace exposure controls.

• Volatile organic compoundRelated: Limits for specific VOCs guide monitoring and controls in workplaces.

• Nitrous oxideRelated: Repeated exposure to nitrous oxide can pose neurological and reproductive risks for workers.

• Hydrogen sulfideRelated: Exposure limits guide monitoring and controls for workers handling H₂S.

• Occupational exposureRelated: These limits translate measured workplace concentrations into benchmarks for exposure management.

• FormaldehydeRelated: Workplace limits are designed to control formaldehyde inhalation.

• Safety data sheetRelated: Exposure limits guide the sheet’s exposure-control recommendations.

• AcetoneRelated: Workplace guidance sets airborne acetone limits because concentrated vapor can irritate and depress the nervous system.

• ChloroformRelated: Workplace controls address the inhalation risks posed by volatile chloroform.

• Chlorine dioxideRelated: Strict exposure limits reflect chlorine dioxide's toxicity and inhalation hazard.

• Chemical hazardRelated: Exposure limits help manage risks from hazardous chemicals in work settings.

• Ethylene oxideNarrower topic: Strict exposure limits govern workplaces that handle ethylene oxide.

• FumigationRelated: Exposure limits help define safe conditions for handling fumigants.

• Occupational hygieneRelated: Measured exposures are compared with limits to guide risk decisions and controls.

• TetrahydrofuranRelated: Workplace limits guide controls for inhalation exposure to volatile THF.

• Occupational cancerRelated: Exposure limits are used to reduce contact with carcinogens, though they do not guarantee zero risk.

• Occupational injuryRelated: Exposure limits help control hazards that cause illness through inhalation or contact.

• AcrylonitrileRelated: Workplace limits help control inhalation exposure during manufacture and handling.

• Odor thresholdCompared with: Exposure limits address health risk, not simply whether an odor can be detected.

• Respiratory protectionRelated: Exposure measurements help decide whether respirators are needed and what protection level is required.

• Vinyl chlorideNarrower topic: Limits were established to reduce workers’ exposure to vinyl chloride and its cancer risk.

• ButadieneRelated: Limits guide controls for workers handling butadiene and its production streams.

• Isopropyl alcoholRelated: Workplace limits help manage inhalation exposure when isopropyl alcohol is used in quantity.

• PhosgeneRelated: Strict exposure limits reflect phosgene’s toxicity at low airborne concentrations.

• Sulfur trioxideRelated: Workplace controls address SO₃’s corrosive effects on the respiratory tract and eyes.

• ArsineRelated: Strict exposure limits reflect arsine’s extreme toxicity at low concentrations.

• CyclopentaneRelated: Ventilation and exposure controls reduce inhalation risks where cyclopentane is handled.

• PentaneRelated: Exposure limits guide controls for pentane vapor in workplaces where it is handled.

• ChloromethaneRelated: Workplace controls limit exposure during production, transfer, and use of this volatile gas.

• Methyl methacrylateRelated: Workplace controls for methyl methacrylate exposure are compared with these limits.

• Vanadium(V) oxideRelated: Workplace controls address inhalation exposure to V₂O₅ dust and fumes.

• Antimony trioxideRelated: Dust control and monitoring are used to meet applicable limits for antimony compounds.

• ChloropicrinRelated: Strict exposure controls are needed when chloropicrin is manufactured, handled, or applied.

• CS gasRelated: CS exposure risk depends on airborne concentration and duration, not merely the agent's name.

• IsofluraneRelated: Scavenging systems reduce staff exposure to isoflurane that escapes into operating rooms.

• Peracetic acidRelated: Exposure controls are needed because peracetic acid vapor can irritate eyes and airways.

• Benzyl alcoholRelated: Workplace handling of benzyl alcohol is assessed through exposure controls and applicable limits.

• Butyl acetateRelated: Workplace guidance sets limits for airborne exposure to butyl acetate vapor.

• DimethylformamideRelated: Workplace controls for DMF are shaped by its absorption through skin and inhalation hazards.

• HexamethylenediamineRelated: Workplace controls address irritation and other hazards from handling this reactive diamine.

• TrichloroethyleneRelated: Workplace limits aim to reduce inhalation exposure during solvent handling and cleanup.

• Allyl chlorideRelated: Exposure limits guide controls for this volatile, toxic industrial chemical.

• Carbon disulfideNarrower topic: Workplace limits constrain inhalation exposure during production and use of CS₂.

• ChloroethaneRelated: Workplace limits address inhalation exposure to chloroethane vapor.

• Hydrogen selenideRelated: Very low permissible concentrations reflect H₂Se’s high toxicity.

• IsopentaneRelated: Exposure guidance helps control inhalation risks when handling isopentane.

• Manganese(II) sulfateRelated: Dust controls and exposure limits matter when handling powdered manganese(II) sulfate.

• Methyl isocyanateRelated: Limits guide efforts to prevent workers from breathing hazardous methyl isocyanate concentrations.